Recapitulation of Data on Ukrainian Fossil Insectivore Mammals (Eulipotyphla, Insectivora, Mammalia)

Total Page:16

File Type:pdf, Size:1020Kb

Recapitulation of Data on Ukrainian Fossil Insectivore Mammals (Eulipotyphla, Insectivora, Mammalia) Acta zoologica cracoviensia, 58(2): 137-171, Kraków, 31 December, 2015 Ó Institute of Systematics and Evolution of Animals, Pol. Acad. Sci., Kraków doi:10.3409/azc.58_2.137 RecapitulationofdataonUkrainianfossilinsectivoremammals (Eulipotyphla,Insectivora,Mammalia) BarbaraRZEBIK-KOWALSKA andLeonid I.REKOVETS Received:04September2015.Accepted:08December2015.Availableonline:23December2015. RZEBIK-KOWALSKA B., REKOVETS L.I. 2015. Recapitulation of data on Ukrainian fossil insectivore mammals (Eulipotyphla, Insectivora, Mammalia). Acta zool. cracov., 58(2): 137-171. Abstract. The paper recapitulates data on the fossil insectivore mammals of Ukraine. They include families: Erinaceidae, Talpidae, Dimylidae, Heterosoricidae and Soricidae. In Ukraine the oldest insectivore remains come from the locality of Gritsev and are dated to the early Late Miocene (MN9). The insectivore taxa cited from this country are presented in twelve Tables of three types. One of them lists taxa published with descriptions, meas- urements, localities and geological ages, the second mentions taxa without descriptions or measurements and the third without descriptions, measurements or exact localities. Short remarksonquestionableformsaregiven. Key words: Erinaceidae, Talpidae, Dimylidae, Heterosoricidae, Soricidae, Late Miocene-Holocene,Ukraine. * Barbara RZEBIK-KOWALSKA, Institute of Systematics and Evolution of Animals, Polish AcademyofSciences,S³awkowska17,31-016Kraków,Poland. [email protected] Leonid I. REKOVETS, University of Environmental and Life Sciences of Wroc³aw, Che³moñskiego 38 C, 51-630 Wroc³aw, Poland; National Museum of Natural History, B.Khmelnitski15,01030Kiev,Ukraine. [email protected] I.INTRODUCTION Many papers were published on fossil mammals of Ukraine but only a dozen or so con- tain description of insectivore mammals with measurements, systematic positions as well as localities in which they were found and their geological ages. Those are the papers of PIDOPLICHKO 1955, 1956, TATARINOV 1958, TOPACHEVSKY 1959, 1962a, 1965 and 1966, SVISTUN 1968, MEZHZHERIN and SVISTUN 1968, GUREEV 1971, 1979, MEZHZHERIN 1972, TOPACHEVSKY and PASHKOV 1983, 1990, PASHKOV and TOPACHEVSKY 1990, RZEBIK-KOWALSKA and TOPACHEVSKY 1997, AGADZHANYAN 2009, RZEBIK-KOWAL- SKA and NESIN 2010 and RZEBIK-KOWALSKA and REKOVETS in press. Other papers con- cerning Ukrainian localities, their stratigraphy and fauna cite only the lists of insectivore taxa. The lists are usually copied from other publications of the same type, however with- out any verification. On the other hand it is known that some of these taxa were wrongly identifiedorimprobableinUkrainianterritory. B.RZEBIK-KOWALSKA, L.I.REKOVETS 138 As it can be seen in the Tables (I, IV, VIII, X) so far 40 named species are cited but only 25 (ten moles and 15 shrews) of 15 genera (four moles and eleven shrews) are well docu- mented. As in neighbouring and territorially smaller Poland the number of well docu- mented fossil insectivore mammals (Erinaceidae, Talpidae, Dimylidae, Heterosoricidae and Soricidae) equals 77 (RZEBIK-KOWALSKA 2009) the Ukrainian list seems to be in- complete. The present paper lists in Tables (I-XII) all fossil insectivore mammals described or cited at any time in this country. It also shows which of them are well documented and reallypresentonthisarea.Shortremarksonthequestionableformsarealsogiven. Abbreviations: LM = Late Miocene, P = Pliocene, EP = Early Pliocene, LP = Late Pliocene, Pl = Pleistocene, EPl = Early Pleistocene, MPl = Middle Pleistocene, LPl = Late Pleistocene, H=HoloceneandEH=EarlyHolocene. Surnames and initials of three authors are spelled in tables and references following original publications in Russian or Ukrainian, respectively: CHEPALYGA (in Russian pa- pers), CHEPELIGA (in Ukrainian); V. A. MEZHZHERIN (in Russian), V. O. MEZHZHERIN (in Ukrainian); V. A. TOPACHEVSKY (in Russian) and V. O. TOPACHEVSKY (in Ukrainian). II.FOSSILINSECTIVOREMAMMALSOFUKRAINE Class: Mammalia LINNAEUS,1758 Superorder: Insectivora sensuNOVACEK,1986 Order: Eulipotyphla WADDELL,OKADA andHASEGAWA,1999 II.1.Family Erinaceidae FISCHER,1814 (TablesI-III) Comments. In the Ukraine the fossil Erinaceidae are represented by two subfamilies – thespinelessgymnures–Galericinaeandspinyhedgehogs–Erinaceinae. The presence of the fossil hedgehog Lanthanotherium FILHOL, 1888 is not confirmed by morphological studies. Because it is found in many European countries situated in the vicinity of Ukraine, e.g. in Hungary, Slovakia and Romania, its presence in Ukraine is also very probable. Its occurrence in Europe was documented since the Middle to the middle Late Miocene (MN3/MN4 to MN11) (RZEBIK-KOWALSKA 2009) and in Asia (China) fromMN4andMN11-MN12(QIU andSTORCH 2005). The second fossil form, Amphechinus AYMARD, 1850 from Gritsev also lacks a mor- phological description. As the remains of this genus were collected in western and south- ern Europe in localities dated from the Late Oligocene to the Middle Miocene (MN9), its presence in Ukraine is possible. It is also known from North America, Africa and Asia (ZIEGLER 2005). The name of the tribe, Amphechini GUREEV, 1979, cited by TOPACHEVSKY etal.(1997)isusedveryrarelyintheEuropeanliterature. RecapitulationofUkrainianfossilinsectivores 139 The recent Hemiechinus auritus (GMELIN, 1770) currently lives in the steppe zone of eastern Ukraine and its remains among the Late Pleistocene and Holocene fossils of this countryareexpected. Instead, the presence of Erinaceus europaeus LINNAEUS, 1758 cited by TOPACHEVSKY (1957a, 1961b) in the Middle and Late Pleistocene in Ukrainian territory is unlikely. This European hedgehog is distributed in western Europe and the eastern boundary of its range reaches only the Odra river. On the other hand in the Pleistocene several other species of the genus Erinaceus occurred in Europe. Moreover, the white-breasted hedgehog, E. rou- manicus BARRET-HAMMILTON, 1900 currently inhabits eastern Europe and the Ponto- Mediterranean region (SOMMER 2007). The remains mentioned by TOPACHEVSKY (1957a,1961b)probablybelongtothelatterspecies. Erinaceidae gen. et sp. indet. from Popovo 3 and Verkhnya Krynitsa 2 are now de- scribed as Schizogalerix sp. Hedgehog remains were not found in the material from Popovo2. TableI Fossil Erinaceidae of Ukraine (published with descriptions, measurements, localities and geologicalages) Family Subfamilies Localities Age Publications Genera Species Erinaceidae Galericinae Schizogalerix cf. sarmaticum Mikhailovka1 LM (Late Vallesian, MN10) RZEBIK-KOWALSKA and UNGU ESIN (L ,1981) Frunzovka2 LM (Early Turolian, MN11) N 2010 Popovo3 LM (Early Turolian, MN11) RZEBIK-KOWALSKA and Schizogalerix sp. LM (Early/Middle Turolian, EKOVETS VerkhnyaKrynitsa2 R inpress MN11/MN12) Erinaceinae RZEBIK-KOWALSKA and cf. Postpalerinaceus sp. Mikhailovka2 LM (Early Turolian, MN11) NESIN 2010 Erinaceus sp. Nogaisk EPl(EarlyBiharian,Q1) V.A.TOPACHEVSKY 1965 B.RZEBIK-KOWALSKA, L.I.REKOVETS 140 TableII FossilErinaceidaeofUkraine(mentionedwithoutdescriptionsormeasurements) Family Subfamilies Tribes Localities Age Publications Genera Species Erinaceidae Galericinae V.A.TOPACHEVSKY,NESIN andI.V.TOPACHEVSKY 1997; RZEBIK-KOWALSKA andV.O. Lanthanotherium sp. Gritsev LM (Early Vallesian, MN9) TOPACHEVSKY 1997;NESIN andNADACHOWSKI 2001; NESIN 2013 Schizogalerix cf. Mikhailovka1 LM (Late Vallesian, MN10) NESIN 2013 sarmaticum Frunzovka2 LM (Early Turolian, MN11) V.A.TOPACHEVSKY,NESIN andI.V.TOPACHEVSKY 1997; LM(EarlyVallesian, Gritsev RZEBIK-KOWALSKA andV.O. MN9) TOPACHEVSKY 1997;NESIN Schizogalerix sp. andNADACHOWSKI 2001 Novoelizavetovka3 LM (Middle Turolian, MN12) NESIN 2013 Cherevychnoe3 LM (Middle Turolian, MN12) NESIN 2013 V.A.TOPACHEVSKY,NESIN Galericinaegen. andI.V.TOPACHEVSKY 1997; Gritsev LM (Early Vallesian, MN9) etsp.indet NESIN andNADACHOWSKI 2001 Erinaceinae V.A.TOPACHEVSKY,NESIN ?Amphechini Gritsev LM (Early Vallesian, MN9) andI.V.TOPACHEVSKY 1997 RZEBIK-KOWALSKA andV.O. Gritsev LM (Early Vallesian, MN9) TOPACHEVSKY 1997;NESIN Amphechinus sp. 2013 Cherevychnoe3 LM (Middle Turolian, MN12) NESIN 2013 cf. Hemiechinus sp. Gorishnya Vygnanka LP TATARINOV 1965b cf. Postpalerinaceus sp. Mikhailovka2 LM (Early Turolian, MN11) NESIN 2013 RecapitulationUkrainianfossilinsectivores 141 TableII(continuation) Family Subfamilies Tribes Localities Age Publications Genera Species Kotlovina1 EP (Late Ruscinian, MN15) Odessa(catacombs) EP (Late Ruscinian, MN15) EPl(previouslyLate ESIN Kotlovina2 N 2013 Villanyan,MN17) EPl(previouslyLate Kotlovina3 Villanyan,MN17) Nogaisk EPl(EarlyBiharian,Q1) V.O.TOPACHEVSKY 1957b Erinaceus sp. REKOVETS,CHEPALYGA, Bolshevik2(l.III) EPl(LateBiharian,Q2) NESIN andSVETLITSKAYA 1990; REKOVETS 1990 Tarkhankut EPl(EarlyBiharian,Q1) Nogaisk EPl(EarlyBiharian,Q1) REKOVETS and Cherevychnoe1 EPl(EarlyBiharian,Q1) NADACHOWSKI 1995 Bolshevik2(l.III) EPl(LateBiharian,Q2) Tikhonovka1 EPl(LateBiharian,Q2) Novoelizavetovka2 LM (Early Turolian, MN11) Popovo3 LM (Early Turolian, MN11) NESIN 2013 Erinaceidaegen. LM(Early/Middle Verkhnya Krynitsa 2 etsp.indet. Turolian,MN11/MN12) REKOVETS andPASHKOV 2009 LP(EarlyVillanyan,endof Popovo2 MN16) B.RZEBIK-KOWALSKA, L.I.REKOVETS 142 TableIII Fossil Erinaceidae of Ukraine (mentioned without descriptions, measurements or exact localities) Family Subfamily Localities Age Publications Genera Species Erinaceidae Erinaceinae alluvia(lowercourseof LPlandH V.O.TOPACHEVSKY 1957a Dnieper) alluvia(middlecourseof Erinaceuseuropaeus Dnieper, MPlandLPl V.O.TOPACHEVSKY 1961b LINNAEUS,1758 Cherkasy-MishurinRig
Recommended publications
  • Special Publications Museum of Texas Tech University Number 63 18 September 2014
    Special Publications Museum of Texas Tech University Number 63 18 September 2014 List of Recent Land Mammals of Mexico, 2014 José Ramírez-Pulido, Noé González-Ruiz, Alfred L. Gardner, and Joaquín Arroyo-Cabrales.0 Front cover: Image of the cover of Nova Plantarvm, Animalivm et Mineralivm Mexicanorvm Historia, by Francisci Hernández et al. (1651), which included the first list of the mammals found in Mexico. Cover image courtesy of the John Carter Brown Library at Brown University. SPECIAL PUBLICATIONS Museum of Texas Tech University Number 63 List of Recent Land Mammals of Mexico, 2014 JOSÉ RAMÍREZ-PULIDO, NOÉ GONZÁLEZ-RUIZ, ALFRED L. GARDNER, AND JOAQUÍN ARROYO-CABRALES Layout and Design: Lisa Bradley Cover Design: Image courtesy of the John Carter Brown Library at Brown University Production Editor: Lisa Bradley Copyright 2014, Museum of Texas Tech University This publication is available free of charge in PDF format from the website of the Natural Sciences Research Laboratory, Museum of Texas Tech University (nsrl.ttu.edu). The authors and the Museum of Texas Tech University hereby grant permission to interested parties to download or print this publication for personal or educational (not for profit) use. Re-publication of any part of this paper in other works is not permitted without prior written permission of the Museum of Texas Tech University. This book was set in Times New Roman and printed on acid-free paper that meets the guidelines for per- manence and durability of the Committee on Production Guidelines for Book Longevity of the Council on Library Resources. Printed: 18 September 2014 Library of Congress Cataloging-in-Publication Data Special Publications of the Museum of Texas Tech University, Number 63 Series Editor: Robert J.
    [Show full text]
  • Revision of Moles in the Genus Scapanus
    THERYA, 2021, Vol. 12(2):275-281 DOI:10.12933/therya-21-1174 ISSN 2007-3364 Revision of moles in the genus Scapanus SERGIO TICUL ÁLVAREZ-CASTAÑEDA1 *, AND PATRICIA CORTES-CALVA1 1 Centro de Investigaciones Biológicas del Noroeste, Instituto Politécnico Nacional 195, CP. 23096. La Paz, Baja California Sur, México. Email: [email protected] (STA-C), [email protected] (PCC). *Corresponding author Scapanus latimanus is a species with many morphological differences among its populations. This variation is associated with multiple taxonomic changes at the species or subspecies level. This study incorporates genetic analyses and comparisons with previous morphological studies to propose a better understanding of the latimanus complex. Mitochondrial markers (cytochrome b; cytochrome c oxidase subunit I; and cytochrome c oxidase subunit III) were sequenced to construct a phylogeny for the subfamily Scalopinae in North America. Genetic dis- tances ranged from 2.49 to 10.50 % among geographic areas. Results identified three monophyletic clades with high bootstrap support values. Based on our phylogenetic analysis and previous morphological analyses, we confirm S. anthonyi from San Pedro Mártir as a valid species and propose that S. occultus from southern California and northern Baja California peninsula be considered as a species. Scapanus latimanus es una especie con muchas diferencias morfológicas entre sus poblaciones. Esta variación está asociada con múltiples cambios taxonómicos a nivel de especie o subespecie. Para proponer una mejor comprensión del complejo latimanus, en este estudio se in- corpora la información genética a los estudios previos de morfología. Se secuenciaron genes de origen mitocondrial (citocromo b; citocromo c oxidasa subunidad I y III) para construir la filogenia para la subfamilia Scalopinae en Norteamérica.
    [Show full text]
  • New Records of Parascalops, Neurotrichus and Condylura (Talpinae, Insectívora) from the Pliocene of Poland
    Acta Theriologica 38 (2): 125 - 137,1993. PL ISSN 0001 -7051 New records of Parascalops, Neurotrichus and Condylura (Talpinae, Insectívora) from the Pliocene of Poland Stanislaw SK0CZEÑ Skoczeń S. 1993. New records of Parascalops, Neurotrichus and Condylura (Talpinae, Insectívora) from the Pliocene of Poland. Acta theriol. 38: 125 - 137. Four humeri, two from the locality of Podlesice (early Pliocene, early Ruscinian MN 14) and two from Węże 1 A (Pliocene, Ruscinian MN 15) are the basis for description of a new species of Parascalops fossilis sp. n. In Węże 2 (Pliocene, Ruscinian-Villanyian MN 15/16) one M1 and one humerus oí Neurotrichus minor sp. n. was found. Many remains of Condylura kowalskii Skoczeń, 1976, come from the same locality as well. A single humerus of Neurotrichus polonicus Skoczeń, 1980, has been found in Kielniki 3 B (late Villanyian MN 17). All the above mentioned Talpidae species belong to the recent North American endemic genera and appeared as single species exclusively. The problem of probable migration or development of convergent lines is discussed. Department of Zoology and Wildlife Management, Agricultural Academy of Cracow, 29 November Allee 46, 31-425 Cracow, Poland Key words: Parascalops, Neurotrichus, Condylura, Talpinae, Pliocene, Poland Introduction The first data concerning Condylura remains from Polish Pliocene localities (Skoczeń 1976) and Neurotrichus (Skoczeń 1980) has led to vivid discussion of the origin and possible migrations of North American Talpidae from the Old World or development of parallel or convergent lines. The present data on fossil Talpinae, among them Parascalops also have bearing on further discussion. The Quyania chowi from the upper Miocene (Upper Turolian) or lower Pliocene (Ruscinian) of inner Mongolia, described by Storch and Qiu (1983), exhibits clear phyletic relations to the genus Neurotrichus of the Old and New World.
    [Show full text]
  • Condylura (Mammalia, Talpidae) Reloaded: New Insights About the Fossil Representatives of the Genus
    Palaeontologia Electronica palaeo-electronica.org Condylura (Mammalia, Talpidae) reloaded: New insights about the fossil representatives of the genus Gabriele Sansalone, Tassos Kotsakis, and Paolo Piras ABSTRACT The star nosed mole, Condylura cristata, due to its morphological and behavioural peculiarities, has been deeply investigated by different authors. By contrast, very little is known about the phylogenetic relationships, evolution and diversity of the fossil members of this genus. In the present study we provide new insights about the fossil specimens ascribed to Condylura taking into account systematic, palaeobiogeographi- cal and palaeoecological aspects. Further, we provide a re-description of a fossil Con- dylura from the middle Miocene of Kazakhstan. We confirm that the Kazakh fossil belongs to the genus Condylura, based on humeral morphological features, and we discuss its implications and impact on the phylogenetic scenario and ecology of this peculiar talpid genus. This specimen represents the earliest record of the genus, thus suggesting an Eurasiatic origin instead of the most commonly accepted scenario of a North American one. The presence of both plesiomorphic and apomorphic characters in Condylura strongly supports the hypothesis that this genus could be considered as sister clade of Talpinae. Gabriele Sansalone. Roma Tre University of Rome, Dept. of Sciences, L.S. Murialdo, 1 – 00146 Rome, Italy/Center for evolutionary ecology, C.da Fonte Lappone, Pesche, Italy/Form, Evolution and Anatomy Research Laboratory, Zoology, School of Environmental and Rural Sciences, University of New England, Armidale, NSW 2351, Australia [email protected] Tassos Kotsakis. Roma Tre University of Rome, Dept. of Sciences, L.S. Murialdo, 1 – 00146 Rome, Italy/ Center for evolutionary ecology, C.da Fonte Lappone, Pesche, Italy [email protected] Paolo Piras.
    [Show full text]
  • Talpid Mole Phylogeny Unites Shrew Moles and Illuminates Overlooked Cryptic Species Diversity Kai He,‡,†,1,2 Akio Shinohara,†,3 Kristofer M
    Talpid Mole Phylogeny Unites Shrew Moles and Illuminates Overlooked Cryptic Species Diversity Kai He,‡,†,1,2 Akio Shinohara,†,3 Kristofer M. Helgen,4 Mark S. Springer,5 Xue-Long Jiang,*,1 and Kevin L. Campbell*,2 1State Key Laboratory of Genetic Resources and Evolution, Kunming Institute of Zoology, Chinese Academy of Sciences, Kunming, China 2Department of Biological Sciences, University of Manitoba, Winnipeg, MN , Canada 3Department of Bio-resources, Division of Biotechnology, Frontier Science Research Center, University of Miyazaki, Miyazaki, Japan 4National Museum of Natural History Smithsonian Institution, Washington, DC 5Department of Biology, University of California, Riverside, CA ‡Present address: The Kyoto University Museum, Kyoto University, Kyoto, Japan †These authors contributed equally to this work. *Corresponding authors: E-mails: [email protected]; [email protected] Associate editor: Emma Teeling Abstract The mammalian family Talpidae (moles, shrew moles, desmans) is characterized by diverse ecomorphologies associated with terrestrial, semi-aquatic, semi-fossorial, fossorial, and aquatic-fossorial lifestyles. Prominent specializations involved with these different lifestyles, and the transitions between them, pose outstanding questions regarding the evolutionary history within the family, not only for living but also for fossil taxa. Here, we investigate the phylogenetic relationships, divergence times, and biogeographic history of the family using 19 nuclear and 2 mitochondrial genes (16 kb) from 60% of described species representing all 17 genera. Our phylogenetic analyses help settle classical questions in the evolution of moles, identify an ancient (mid-Miocene) split within the monotypic genus Scaptonyx, and indicate that talpid species richness may be nearly 30% higher than previously recognized. Our results also uniformly support the monophyly of long-tailed moles with the two shrew mole tribes and confirm that the Gansu mole is the sole living Asian member of an otherwise North American radiation.
    [Show full text]
  • Deep, Dirty Secrets: 2014 Archaeological Excavations at the Isaiah Davenport House, Savannah, Georgia
    Deep, Dirty Secrets: 2014 Archaeological Excavations at the Isaiah Davenport House, Savannah, Georgia Volume 2 Davenport House Report Volume 2 (See Volume 1 for Archaeology Report) Appendix A: Ground Penetrating Radar Report Appendix B: Macrobotanical Report Appendix C: Pollen, Phytolith, Starches, & Parasites Report Appendix D: Faunal Report Appendix E: Artifact Inventory Davenport House Report Volume 2 Appendix A Ground Penetrating Radar Daniel T. Elliott LAMAR Institute museum and a showcase of Savannah’s Introduction wonderful historic heritage. Field researchers conducted this This report details the LAMAR archeological project in December 2013. Institute’s Ground Penetrating Radar The GPR survey explored portions of the Survey (GPR) of a sample portion of the Davenport yard, the Davenport house Isaiah Davenport House Museum basement, and two exterior brick walls property in Savannah, Georgia (Figure of the Davenport house. The GPR report 1). This undertaking was commissioned represents supporting research for a by the Historic Savannah Foundation broader archaeological report authored who operate the Isaiah Davenport House by Rita Folse Elliott and Daniel T. Museum. The Davenport has an Elliott (2014). That report contains a important history beyond its obvious detailed historical background and nineteenth century role. The pending context for the GPR study and for destruction of this dwelling and its last- subsequent excavations and analyses. minute salvation marked a major The background, research methods, milestone in the beginning of the historic findings and interpretations of the GPR preservation movement in Savannah. survey are detailed in this report. The property was saved and placed and it continues to operate as a historic house Figure 1.
    [Show full text]
  • Scapanus Latimanus. by B
    :MAMMALIAN SPECIES No. 666, pp. 1-7, 4 figs. Scapanus latimanus. By B. J. Verts and Leslie N. Carraway Published 5 June 2001 by the American Society of Mammalogists Scapanus latimanus (Bachman, 1842) by fur; small auricular orifices; keeled sternum (manubrium; Fig. 2a); short, stout legs; wide, scantily haired, and horny manus (Fig. Broad-footed Mole 2b) permanently turned outward (Fig. 1) and widened by the os Downloaded from https://academic.oup.com/mspecies/article-abstract/doi/10.2307/0.666.1/2600789 by guest on 11 March 2019 falciforme attached to the 1st digit; long, wide nails on the manus; Scalopus latimanus Bachman, 1842:34. Type locality "Santa Clara, relatively diminutive pes (Figs. 1 and 2c) with shorter, more pointed [Santa Clara Co., California]" (vide Osgood 1907:52). nails; and short, plush-like pelage (Ingles 1965; Jackson 1915; Scalops californicus Ayres, 1856:53. Type locality designated as Sumner and Dixon 1953). Penis is directed posteriorly and scrotum "San Francisco, [San Francisco Co.,] California" by Jackson is a slight bulge in the skin (Nowak 1991). Pinnae are absent (Hall (1915:64). 1946; Ingles 1965; Nowak 1991) and "auditory meatus [is] short Scapanus townsendii Peters, 1863:656. Misnaming of original type (more developed than in Scalopus)" (Jackson 1915:56). The 8 in Berlin Museum. mammae include 2 pairs pectoral and 1 pair each abdominal and Scapanus dilatus True, 1894:242. Type locality "Fort Klamath, inguinal (Jackson 1915). [Klamath Co.,] Oreg[on]." Skull (Fig. 3) is conoidal with a broad braincase, moderately Scapanus californicus True, 1896:52. Type locality "San Francis­ heavy mastoids, rectangular interparietal region about one-third as co, [San Francisco Co.,] California." wide as long, flat frontal region, premaxillae extending beyond na­ Scapanus latimanus Osgood, 1907:52.
    [Show full text]
  • Karyotype Evolution of Shrew Moles (Soricomorpha: Talpidae)
    Journal of Mammalogy, 89(6):1428–1434, 2008 KARYOTYPE EVOLUTION OF SHREW MOLES (SORICOMORPHA: TALPIDAE) SHIN-ICHIRO KAWADA,* SONG LI,YING-XIANG WANG,ORIN B. MOCK,SEN-ICHI ODA, AND KEVIN L. CAMPBELL Department of Zoology, National Museum of Nature and Science, 3-23-1, Hyakunin-cho, Shinjuku, Tokyo 169-0073, Japan (SK) Mammalogy Division, Kunming Institute of Zoology, Chinese Academy of Sciences, Kunming, Yunnan 650223, China (SL, Y-XW) Department of Anatomy, Kirksville College of Osteopathic Medicine, A. T. University of Health Sciences, Kirksville, MO 63501, USA (OBM) Laboratory of Animal Management and Resources, Graduate School of Bio-Agricultural Sciences, Nagoya University, Nagoya, Aichi 464-8601, Japan (SO) Department of Biological Sciences, University of Manitoba, Winnipeg, Manitoba R3T 2N2, Canada (KLC) The Chinese long-tailed mole (Scaptonyx fusicaudus) closely resembles American (Neurotrichus gibbsii) and Japanese (Dymecodon pilirostris and Urotrichus talpoides) shrew moles in size, appearance, and ecological habits, yet it has traditionally been classified either together with (viz subfamily Urotrichinae) or separately (tribe Scaptonychini) from the latter genera (tribe Urotrichini sensu lato). We explored the merit of these competing hypotheses by comparing the differentially stained karyotypes of S. fusicaudus and N. gibbsii with those previously reported for both Japanese taxa. With few exceptions, diploid chromosome number (2n ¼ 34), fundamental autosomal number (FNa ¼ 64), relative size, and G-banding pattern of S. fusicaudus were indistinguishable from those of D. pilirostris and U. talpoides. In fact, only chromosome 15 differed significantly between these species, being acrocentric in D. pilirostris, subtelocentric in U. talpoides, and metacentric in S. fusicaudus. This striking similarity is difficult to envisage except in light of a shared common ancestry, and is indicative of an exceptionally low rate of chromosomal evolution among these genera.
    [Show full text]
  • Surface Foraging in Scapanus Moles
    Mammalia 2017; aop Vladimir Dinets* Surface foraging in Scapanus moles DOI 10.1515/mammalia-2016-0091 species that forages underwater, underground and on the Received July 3, 2016; accepted November 29, 2016 surface (Condylura; Nowak 1999, Smith and Xie 2013). Western American moles (Scapanus) are believed Abstract: Some mole genera, including Scapanus of west- to be exclusively underground foragers (Stephens 1906 ern North America, are usually considered to be fully fos- and virtually all subsequent works), although they are sorial. I present data showing that surface foraging is used known to forage under snow in winter in colder parts of by adults of all four Scapanus species, and evidence that their range (Pedersen 1963). Regular occurrence of their such foraging is not a particularly rare behavior. Scapanus remains in owl pellets and among animals killed by moles forage on the surface when leaf litter is wet and domestic cats and dogs (Giger 1965, Maser and Brodie does not produce much noise; they also move slowly, 1966) and by other predators (see Carraway et al. 1993 for remain within a small area, and usually forage in places an overview) is interpreted as evidence of either surface with dense cover. These adaptations decrease the risk of dispersal by juveniles (Giger 1965, Verts and Carraway predation and make surface foraging behavior difficult to 2001) or movement of males seeking females (Naughton detect for human observers. Numerous unpublished and 2012). The former view is supported by the fact that almost a few published observations suggest that many, if not all skulls collected from owl and raptor pellets belong to all, species in other “fully fossorial” mole genera forage juveniles (Pedersen 1963, Giger 1965).
    [Show full text]
  • Headlines Himalaya December
    An Environmental Research Abstract Headlines Himalaya December January 16 – January 31 (2021) No. 635-636 Editorial Team: Lila Paudel and Bimal Sharma For the 635th - 636th issues of Headlines Himalaya, we reviewed journal articles from five sources and selected nine researches from five countries. We selected two researches from Nepal and seven researches from other Himalayan countries (India, China, Bhutan and Pakistan). Headlines Himalaya, a weekly research based information fact file is an attempt to keep our global readers abreast with the happenings in the Himalaya. Please share it with your colleagues and friends. Also, subscription is free. Enjoy! NEPAL MOLECULAR AND MORPHOLOGICAL REVISION OF SMALL MYOTINAE FROM THE HIMALAYAS SHED NEW LIGHT ON THE POORLY KNOWN GENUS SUBMYOTODON (CHIROPTERA: VESPERTILIONIDAE) HYDROCHEMISTRY OF RARA LAKE: A RAMSAR LAKE FROM THE SOUTHERN SLOPE OF THE CENTRAL HIMALAYAS, NEPAL INDIA ASSEMBLING MITOGENOME OF HIMALAYAN BLACK BEAR (U. T. LANIGER) FROM LOW DEPTH READS AND ITS APPLICATION IN DRAWING PHYLOGENETIC INFERENCES GEOLOGICAL AND PLEISTOCENE GLACIATIONS EXPLAIN THE DEMOGRAPHY AND DISJUNCT DISTRIBUTION OF RED PANDA (A. FULGENS) IN EASTERN HIMALAYAS CHINA MORPHOLOGY AND PHYLOGENY OF SCALOPINE MOLES (EULIPOTYPHLA: TALPIDAE: SCALOPINI) FROM THE EASTERN HIMALAYAS, WITH DESCRIPTIONS OF A NEW GENUS AND SPECIES BHUTAN GEOTECHNICAL PARAMETER ASSESSMENT OF SEDIMENT DEPOSIT: A CASE STUDY IN PASAKHA, BHUTAN AWARENESS AND PRACTICE OF MEDICAL WASTE MANAGEMENT AMONG HEALTHCARE PROVIDERS IN NATIONAL REFERRAL HOSPITAL
    [Show full text]
  • Myoglobin Primary Structure Reveals Multiple Convergent Transitions To
    RESEARCH ARTICLE Myoglobin primary structure reveals multiple convergent transitions to semi- aquatic life in the world’s smallest mammalian divers Kai He1,2,3,4*, Triston G Eastman1, Hannah Czolacz5, Shuhao Li1, Akio Shinohara6, Shin-ichiro Kawada7, Mark S Springer8, Michael Berenbrink5*, Kevin L Campbell1* 1Department of Biological Sciences, University of Manitoba, Winnipeg, Canada; 2Department of Biochemistry and Molecular Biology, School of Basic Medical Sciences, Southern Medical University, Guangzhou, China; 3State Key Laboratory of Genetic Resources and Evolution, Kunming Institute of Zoology, Chinese Academy of Sciences, Kunming, China; 4Guangdong Provincial Key Laboratory of Single Cell Technology and Application, Southern Medical University, Guangzhou, China; 5Department of Evolution, Ecology and Behaviour, University of Liverpool, Liverpool, United Kingdom; 6Department of Bio-resources, Division of Biotechnology, Frontier Science Research Center, University of Miyazaki, Miyazaki, Japan; 7Department of Zoology, Division of Vertebrates, National Museum of Nature and Science, Tokyo, Japan; 8Department of Evolution, Ecology and Organismal Biology, University of California, Riverside, Riverside, United States *For correspondence: Abstract The speciose mammalian order Eulipotyphla (moles, shrews, hedgehogs, solenodons) [email protected] (KH); combines an unusual diversity of semi-aquatic, semi-fossorial, and fossorial forms that arose from [email protected]. terrestrial forbearers. However, our understanding of
    [Show full text]
  • Scapanulus Oweni): Further Evidence for Karyotypic Stability in Talpid
    Mammal Study 37: 1–00 (2012) © The Mammal Society of Japan Karyotype of the Gansu mole (Scapanulus oweni): Further evidence for karyotypic stability in talpid Kai He1,2, Jin-Huan Wang1, Wei-Ting Su1, Quan Li1,3, Wen-Hui Nie1 and Xue-Long Jiang1,* 1 State Key Laboratory of Genetic Resources and Evolution, Kunming Institute of Zoology, Chinese Academy of Sciences, Kunming 650223, China 2 Institute of Eastern-Himalaya Biodiversity Research, Dali University, Dali 671003, China 3 University of Chinese Academy of Sciences, Beijing 100049, China Abstract. Little is known about the ecology and evolution of the Gansu mole (Scapanulus oweni). The morphology of this monotypic genus (Talpidae, Eulipotyphla, Mammalia) indicates that it should fall into the tribe Scalopini. Although all the other scalopines are distributed in North America, S. oweni is endemic to Central and Southwest China. Previous studies have indicated that the chromosomes of talpid moles exhibit remarkable stability. However, the karyotype of S. oweni has not been determined. In this study, we report the karyotypes including G-banding and C-banding patterns of S. oweni. The diploid and fundamental autosomal numbers are 34 and 64, respectively, identical with six other talpid species and thus providing another line of evidence for chromosomal uniformity in this family. The models of karyotype stability are discussed, none of which adequately explains the chromosomal conservatism. We suggest that comprehensive approaches are needed to test in which degree that the chromosomal rearrangement, phylogeny, phylogeography and ecological adaptation have shaped the chromosomal evolution in this family. Key words: Gansu (Kansu) mole, G-band, karyotypic stability, Scapanulus oweni.
    [Show full text]